Autor: Jerry Huang

EV charging station connectivity is becoming a core operational issue for public, commercial, and distributed charging networks. For charging operators, it is not enough to know that a charger has been installed. They need to know whether the charger is reachable, available, reporting correctly, connected to its backend, and diagnosable before a technician is sent…

Battery energy storage systems are built from multiple field systems. A BESS site may include a battery management system, power conversion system, energy management system, energy meters, thermal management equipment, protection devices, environmental sensors, and local controllers. Each system plays a different role, and each system may provide different data. This is why BESS data…

EV charging station remote monitoring is becoming more important as commercial charging sites become more complex. Many charging locations are no longer only made up of standalone EV chargers. They may also include solar PV systems, battery storage, energy meters, site controllers, network equipment, and cloud-based charging or energy management platforms. This creates a different…

Battery energy storage systems are becoming an important part of renewable energy sites, microgrids, commercial facilities, utility projects, and distributed energy portfolios. But a BESS site is not a single device that can be monitored with one simple status signal. A BESS usually includes multiple systems: battery racks or cabinets, BMS, PCS, EMS, energy meters,…

Renewable energy assets are often spread across many locations instead of being concentrated inside one controlled facility. A solar PV site, a remote inverter station, a hybrid solar-storage installation, or a distributed energy resource may operate far from the central operations team. For asset owners and system integrators, this creates a practical monitoring challenge. Teams…

Industrial robots are no longer isolated machines performing repetitive motion in the background. In many factories, they are part of production cells that include PLCs, fixtures, conveyors, vision systems, end-of-arm tooling, sensors, safety systems, and upper-layer monitoring platforms. This makes industrial robot data acquisition more complex than simply asking whether a robot can be connected…

Industrial IoT projects often start with a practical question: how can field-side data be collected, transformed, and forwarded without building a complete custom software application from the beginning? In many factories, project teams may need to read selected Modbus values, convert serial data into a structured format, publish machine status to an MQTT broker, send…

In many factories, valuable production data already exists on the shop floor. It may come from PLCs, meters, sensors, machine controllers, drives, or older equipment that still performs critical work every day. The challenge is that this data is not always easy to collect, interpret, or send to modern industrial IoT platforms. This is especially…

Sending PLC data to the cloud is often discussed as if it were a simple connectivity task. In real industrial environments, the process usually requires more careful planning. PLCs are typically responsible for local machine control, process logic, safety-related coordination, and interaction with field devices. Cloud platforms, on the other hand, are more commonly used…

Industry 4.0 data collection is often described as a step toward connected factories and smarter manufacturing. In practice, however, factory data does not become cloud-ready simply because machines are connected to a network. A modern factory may include PLCs, CNC machines, sensors, meters, inspection systems, production lines, and legacy equipment operating across different interfaces and…